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Electrical safety
This document provides information about electrical safety. It defines electricity and how it works, explaining that electricity is created by the movement of electrons and can be both natural and man-made. It then discusses electrical hazards like improper grounding, exposed wires, inadequate wiring, overhead power lines, and more. The document also outlines common electrical parameters and their effects on the human body, like electrical shock, burns, and internal injuries. Finally, it recommends safety measures for electrical work, including using personal protective equipment, ground fault circuit interrupters, and following lock-out/tag-out procedures to isolate power sources before performing work.
Electrical injuries
Electrical injuries can range from minimal to severe or fatal. They present with a variety of issues including cardiac or respiratory arrest, burns, and trauma. The type of current, duration of contact, resistance of tissues, voltage, and pathway of current determine the severity of injury. Injuries may include burns, cardiac or respiratory issues, fractures, and damage to multiple organ systems. Management involves stabilizing the scene, treating ABCs, monitoring for cardiac or respiratory issues, evaluating for injuries, and serial exams due to potential late complications.
electrical-safety.pptx
An overview of electrical safety in general and in hospital specifically which is a part of safety in biomedical engineering.
electrical engineering, electrical fire, and safety, electrical safety audits...
electrical engineering, electrical fire, and safety, electrical safety audits, electrical training, for process plants oil and gas
Electric burn
An electrical injury occurs when an electric current passes through the body, interfering with organ function or burning tissue. The type and severity of damage depends on factors like current type (AC vs DC), voltage, resistance, duration, and pathway. AC current is generally more dangerous than DC as it can cause cardiac arrhythmias. Electrical injuries require aggressive fluid resuscitation to prevent complications like renal failure. Management involves stabilizing vital functions and treating burns based on their depth and extent. Prognosis depends on the severity and site of injury.
ES.pptx
This document discusses electrical safety hazards in hospitals. It identifies several types of hazards including electrical shocks from equipment failure, mechanical hazards from medical devices, environmental hazards from utilities and waste, and radiation hazards from medical imaging equipment. Electrical safety is important due to the many energy sources and medical procedures using electricity that expose patients to increased risk of injury. Common causes of device-related injuries are improper use, inadequate training, lack of experience, and device failure. The physiological effects of electric currents on the human body depend on factors like current magnitude and path in the body. Safety standards aim to limit leakage currents and protect patients by isolating them from electric currents or keeping all surfaces at the same voltage.
electric shock .pptx
An electric shock occurs when a person comes into direct contact with an electrical energy source, causing electrical energy to flow through a portion of the body. The severity of the shock depends on factors like voltage, current, path through the body, and duration of contact. Symptoms can range from pain to burns to cardiac arrest. Treatment involves removing the person from the energy source and providing first aid like CPR if needed while waiting for emergency medical assistance. Prevention strategies include equipment maintenance, ground fault circuit interrupters, and avoiding contact with energy sources when wet or in water.
Electrical hazard
Electrical safety is important because electricity can cause serious injuries or death if proper precautions are not taken. Some key electrical hazards include electrocution, electrical shock, burns, falls, and fires. The most common electrical injuries are electrical shock, burns, and falls. It is important to avoid touching wires, use proper protective equipment, and disconnect power sources before helping victims of electrical accidents.
Recommended
Electrical safety
This document provides information about electrical safety. It defines electricity and how it works, explaining that electricity is created by the movement of electrons and can be both natural and man-made. It then discusses electrical hazards like improper grounding, exposed wires, inadequate wiring, overhead power lines, and more. The document also outlines common electrical parameters and their effects on the human body, like electrical shock, burns, and internal injuries. Finally, it recommends safety measures for electrical work, including using personal protective equipment, ground fault circuit interrupters, and following lock-out/tag-out procedures to isolate power sources before performing work.
Electrical injuries
Electrical injuries can range from minimal to severe or fatal. They present with a variety of issues including cardiac or respiratory arrest, burns, and trauma. The type of current, duration of contact, resistance of tissues, voltage, and pathway of current determine the severity of injury. Injuries may include burns, cardiac or respiratory issues, fractures, and damage to multiple organ systems. Management involves stabilizing the scene, treating ABCs, monitoring for cardiac or respiratory issues, evaluating for injuries, and serial exams due to potential late complications.
electrical-safety.pptx
An overview of electrical safety in general and in hospital specifically which is a part of safety in biomedical engineering.
electrical engineering, electrical fire, and safety, electrical safety audits...
electrical engineering, electrical fire, and safety, electrical safety audits, electrical training, for process plants oil and gas
Electric burn
An electrical injury occurs when an electric current passes through the body, interfering with organ function or burning tissue. The type and severity of damage depends on factors like current type (AC vs DC), voltage, resistance, duration, and pathway. AC current is generally more dangerous than DC as it can cause cardiac arrhythmias. Electrical injuries require aggressive fluid resuscitation to prevent complications like renal failure. Management involves stabilizing vital functions and treating burns based on their depth and extent. Prognosis depends on the severity and site of injury.
ES.pptx
This document discusses electrical safety hazards in hospitals. It identifies several types of hazards including electrical shocks from equipment failure, mechanical hazards from medical devices, environmental hazards from utilities and waste, and radiation hazards from medical imaging equipment. Electrical safety is important due to the many energy sources and medical procedures using electricity that expose patients to increased risk of injury. Common causes of device-related injuries are improper use, inadequate training, lack of experience, and device failure. The physiological effects of electric currents on the human body depend on factors like current magnitude and path in the body. Safety standards aim to limit leakage currents and protect patients by isolating them from electric currents or keeping all surfaces at the same voltage.
electric shock .pptx
An electric shock occurs when a person comes into direct contact with an electrical energy source, causing electrical energy to flow through a portion of the body. The severity of the shock depends on factors like voltage, current, path through the body, and duration of contact. Symptoms can range from pain to burns to cardiac arrest. Treatment involves removing the person from the energy source and providing first aid like CPR if needed while waiting for emergency medical assistance. Prevention strategies include equipment maintenance, ground fault circuit interrupters, and avoiding contact with energy sources when wet or in water.
Electrical hazard
Electrical safety is important because electricity can cause serious injuries or death if proper precautions are not taken. Some key electrical hazards include electrocution, electrical shock, burns, falls, and fires. The most common electrical injuries are electrical shock, burns, and falls. It is important to avoid touching wires, use proper protective equipment, and disconnect power sources before helping victims of electrical accidents.
electricity and human body.pptx
The human body contains electrolytes and water that allow electricity to flow through it. The pathways of current depend on whether it is alternating or direct current. AC can pass through cell membranes but DC cannot. A shock occurs when a body part contacts a live electricity source, and different current levels cause varying effects from a tingling sensation to ventricular fibrillation and death. Burns, internal injuries, and involuntary muscle contractions are common shock injuries. First aid involves ensuring the power is off before touching the victim and providing CPR if needed.
Ia [industrial automation part 1]
This document provides an overview of safety and security topics related to basic industrial wiring. It discusses the physiological effects of electricity on the human body, including how electric current can cause heating, damage nerves and tissues. Threshold values for electric sensation, the ability for a person to let go, and ventricular fibrillation are defined. The main causes of electric shocks are also examined, such as inappropriate operating modes, lack of awareness of risks, and inadequate training. Formulas are provided to calculate body impedance and the current that will flow through the body depending on voltage exposure. The various effects of electric current on the body are also summarized.
Electrical shock hazards and its effects on human body
Electrical shock hazards occur when a person comes into direct or indirect contact with an energized conductor or equipment. The effects of an electrical current passing through the human body vary based on several factors such as voltage, current duration, current value, frequency, and pathway. Currents between 50-120V AC or DC are generally considered safe, while higher currents can cause injuries like loss of muscle control, respiratory arrest, pain, fatigue, ventricular fibrillation, cardiac arrest, and burns - some of which can be fatal. Ventricular fibrillation in particular is a major cause of death from electrical shock due to uncontrolled heart contractions.
Electrocution
Electrocution, or death caused by electric shock, occurs when electric current passes through the body. The type and severity of injury depends on factors like voltage, current, duration of contact, and path of current. Death is usually due to cardiac fibrillation or respiratory paralysis. Burns may be present at entry and exit points. A forensic examination looks for these burns, as well as other injuries like fractures caused by muscle contractions. Tissue damage ranges from mild burns to charring, and internal injuries can include heart lesions or cerebral edema.
electrical safety_lecture.pdf
The document discusses electrical safety topics including physiological effects of electricity, susceptibility parameters, distribution of electrical power, isolated power systems, macroshock and microshock hazards, electrical safety codes and standards, ground fault circuit interrupters, equipment design, and electrical safety testing. It covers electrical hazards in clinical environments, thresholds for electrical stimulation and injury, factors that influence susceptibility to electrical currents, and mechanisms for protecting against macroshocks and conducting leakage currents safely.
Electrical safety
This document discusses electrical safety in medical environments. It outlines several hazards posed by electricity in these settings, including fire, hazardous substances, waste products, sound, electricity, and disasters. It then examines the physiological effects of electric current on the human body, such as stimulation of nerves and muscles, heating of tissues, and electrochemical burns. Threshold currents for perception, involuntary muscle contractions, respiratory paralysis and ventricular fibrillation are provided. The document also discusses electric power distribution, isolation systems, emergency power systems, electric faults in equipment, microshocks, and conductive paths to the heart in clinical devices.
Electric Injuries
Department Of Plastic And Reconstructive Surgery
Sher I Kashmir Institute of Medical Sciences Srinigar
Electrical Safety
This training session covers electrical safety for unqualified workers. “Unqualified” workers are those such as machine operators, operators of powered industrial trucks, construction workers, and others who are not qualified to perform electrical work, but who need to know important information about the hazards of electricity and how to prevent serious injury.
For workers who are authorized to work on or near energized electrical equipment and wiring, additional training is required.
safety from electric shock
Electric shock occurs when electric current passes through the human body, which can cause burns, physical injuries like broken bones, and nervous system effects such as stopping breathing. Shocks are caused by direct or indirect contact with an exposed live part. Current passing through the body at different levels can result in muscles clamping, fibrillation where the heart twitches without pumping blood, and damage to the heart tissue. To help someone receiving a shock, remove the source using an insulated item without touching the person. Monitor their condition afterwards and call for emergency help if unconscious. Safety precautions include avoiding wet work, using ground fault circuit interrupters, and staying away from overhead power lines.
7-Electrical-Safety.pptx
This document discusses electrical safety and provides information on:
1) How electrical current can enter the body and travel through it, how current affects the body at different levels of amperage.
2) The primary injuries of electrical burns and respiratory failures and secondary injuries from accidents caused by shocks.
3) Factors like current amount, path, frequency and duration that determine injury severity.
4) Electrical hazards including physical ones like wet floors or bare wires and behavioral ones like taking shortcuts.
5) The proper response steps for an electrical accident of turning off power, freeing the victim safely, and calling for help.
Electrocution
1) Electrocutions can occur from a variety of voltages including domestic, industrial, and lightning sources. Fatal electrocutions are divided based on voltage into domestic (220-240V), industrial (high voltages), and lightning.
2) The factors that determine the effects of electrocution include voltage, amperage, current type (AC vs. DC), duration of contact, resistance of body tissues, area of body contact, and path of current through the body.
3) Death from electrocution is usually caused by ventricular fibrillation leading to cardiac arrest, but can also result from spasms of the respiratory muscles or paralysis of the respiratory center in the brain.
Motor and pump maintenance manual book soft copy
1. The document provides safety rules and guidelines for working in an electrical maintenance lab. It details 15 general safety rules including keeping food and drinks out of the lab, reporting any equipment issues, and turning off equipment before leaving.
2. The document discusses electrical hazards, noting that electricity can cause serious injury or death from electric shock. It describes the three main ways shock can occur and factors that determine shock severity such as current level and duration of contact. Shock may cause burns, respiratory issues, or cardiac arrest.
3. Additional details are given on body resistance and ensuring circuits are properly grounded to avoid creating an electrical hazard. When working with live circuits, best practices include using one hand at a time to avoid current
Report on Electrical Safety
The document provides an introduction to electricity including its definition, uses, generation, transmission, and distribution. It discusses the various dangers of electricity including electric shock, burns, neurological damage, ventricular fibrillation, arc flash, and statistics on electrical accidents. The dangers are higher from electrical installations in public places where safety precautions are not taken. Indian Electricity Rules 36 and 40 mandate safety requirements for handling electrical supply lines and apparatus as well as street boxes, but as images later show, these rules are often not followed. Ensuring electrical safety, especially in public areas, is important to minimize accidents.
Electrical injuries-1228075385145907-9 (1)
This document provides information about electrical injuries, including definitions of electricity and different types of electrical currents. It then gives a brief history of electricity, covering discoveries from the 1600s to 1900s. It discusses factors that determine the severity of electrical shocks like current, resistance, and exposure time. Finally, it covers safety considerations and risks for household, industrial, and high voltage electrical incidents.
1728511503435_Electrical Safety Analyzer.ppt
The document discusses various topics related to electrical safety. It covers physiological effects of electricity, susceptibility parameters, distribution of electrical power including isolated power systems, macroshock and microshock hazards, electrical safety codes and standards, and protection methods like grounding systems, isolated power distribution, and ground fault circuit interrupters. It provides details on thresholds for electrical stimulation, respiratory paralysis, ventricular fibrillation and burns based on current levels.
Electrical safety training
This document provides an overview of electrical safety training. It describes how electricity works and the risks of electrical shock and injury. Key points include:
- Electricity travels in closed circuits and shock occurs when the body becomes part of the circuit
- Electrical current can cause burns, internal injuries, and involuntary muscle contractions
- Even low voltages pose a hazard as muscular contractions may prevent releasing contact
- Ground faults are the most common type of shock, which GFCIs can help prevent
- Following safety practices like grounding equipment, avoiding power lines, and inspecting cords can help reduce electrical risks.
Electrical Burn.pptx
This document provides an overview of electric burn management from a presentation given by Soni Kumari. It defines electric injuries, classifies them into four types, and discusses their etiology. It describes how tissue resistance affects the path electricity takes through the body. Common associated injuries are outlined for various body systems. Management follows ATLS protocols and includes fluid resuscitation, nutritional support, escharotomy or fasciotomy if needed, wound debridement, and flaps. The goal is to address life threats, prevent complications, and promote wound healing.
electricalsafetyawarenesstrainings
This document provides an overview of electrical safety training. It covers basic concepts of electricity, hazard recognition, effects of electricity on the human body, electrical hazard protections, work practices, and responsibilities of supervisors and employees. The training aims to raise awareness of potential electrical hazards and instructs how to recognize, eliminate, and prevent hazards. It emphasizes following all electrical safety requirements and practices and what to do in the event of an electrical accident.
ELECTRICAL SAFETY IN OPERATION THEATRE .pptx
Operating rooms pose electrical shock hazards due to the abundance of electrical equipment, anesthetized patients who cannot move away from shocks, and the presence of fluids. Electrical shock occurs when a person completes a circuit between a voltage source and allows current to flow through their body, which can disrupt organ functions or cause burns. The severity of shock depends on current amplitude and duration, with alternating current posing more danger than direct current. Macro shocks involve large currents that can reach the heart through tissues, while microshocks involve small currents that can directly stimulate the heart through conduits like catheters. Proper grounding pad placement and equipment maintenance can help reduce electrical shock risks in operating rooms.
Electrical Safety Awareness Training by Albert Einstein College of Medicine
This document provides an outline for an electrical safety awareness training. It discusses the purpose of the training which is to raise awareness of electrical hazards and instruct attendees on hazard recognition, protection methods, and emergency response. Key topics covered include basic electricity concepts, effects of electricity on the human body, identifying hazards like damaged cords and exposed wiring, and protective equipment and practices like insulation, grounding, lockout/tagout procedures, and PPE. The training aims to emphasize electrical safety requirements to prevent electrical accidents and injuries.
My storyboard for a sword fight scene with lightsabers
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Similar to Lecture 1.pdf nb n n n
electricity and human body.pptx
The human body contains electrolytes and water that allow electricity to flow through it. The pathways of current depend on whether it is alternating or direct current. AC can pass through cell membranes but DC cannot. A shock occurs when a body part contacts a live electricity source, and different current levels cause varying effects from a tingling sensation to ventricular fibrillation and death. Burns, internal injuries, and involuntary muscle contractions are common shock injuries. First aid involves ensuring the power is off before touching the victim and providing CPR if needed.
Ia [industrial automation part 1]
This document provides an overview of safety and security topics related to basic industrial wiring. It discusses the physiological effects of electricity on the human body, including how electric current can cause heating, damage nerves and tissues. Threshold values for electric sensation, the ability for a person to let go, and ventricular fibrillation are defined. The main causes of electric shocks are also examined, such as inappropriate operating modes, lack of awareness of risks, and inadequate training. Formulas are provided to calculate body impedance and the current that will flow through the body depending on voltage exposure. The various effects of electric current on the body are also summarized.
Electrical shock hazards and its effects on human body
Electrical shock hazards occur when a person comes into direct or indirect contact with an energized conductor or equipment. The effects of an electrical current passing through the human body vary based on several factors such as voltage, current duration, current value, frequency, and pathway. Currents between 50-120V AC or DC are generally considered safe, while higher currents can cause injuries like loss of muscle control, respiratory arrest, pain, fatigue, ventricular fibrillation, cardiac arrest, and burns - some of which can be fatal. Ventricular fibrillation in particular is a major cause of death from electrical shock due to uncontrolled heart contractions.
Electrocution
Electrocution, or death caused by electric shock, occurs when electric current passes through the body. The type and severity of injury depends on factors like voltage, current, duration of contact, and path of current. Death is usually due to cardiac fibrillation or respiratory paralysis. Burns may be present at entry and exit points. A forensic examination looks for these burns, as well as other injuries like fractures caused by muscle contractions. Tissue damage ranges from mild burns to charring, and internal injuries can include heart lesions or cerebral edema.
electrical safety_lecture.pdf
The document discusses electrical safety topics including physiological effects of electricity, susceptibility parameters, distribution of electrical power, isolated power systems, macroshock and microshock hazards, electrical safety codes and standards, ground fault circuit interrupters, equipment design, and electrical safety testing. It covers electrical hazards in clinical environments, thresholds for electrical stimulation and injury, factors that influence susceptibility to electrical currents, and mechanisms for protecting against macroshocks and conducting leakage currents safely.
Electrical safety
This document discusses electrical safety in medical environments. It outlines several hazards posed by electricity in these settings, including fire, hazardous substances, waste products, sound, electricity, and disasters. It then examines the physiological effects of electric current on the human body, such as stimulation of nerves and muscles, heating of tissues, and electrochemical burns. Threshold currents for perception, involuntary muscle contractions, respiratory paralysis and ventricular fibrillation are provided. The document also discusses electric power distribution, isolation systems, emergency power systems, electric faults in equipment, microshocks, and conductive paths to the heart in clinical devices.
Electric Injuries
Department Of Plastic And Reconstructive Surgery
Sher I Kashmir Institute of Medical Sciences Srinigar
Electrical Safety
This training session covers electrical safety for unqualified workers. “Unqualified” workers are those such as machine operators, operators of powered industrial trucks, construction workers, and others who are not qualified to perform electrical work, but who need to know important information about the hazards of electricity and how to prevent serious injury.
For workers who are authorized to work on or near energized electrical equipment and wiring, additional training is required.
safety from electric shock
Electric shock occurs when electric current passes through the human body, which can cause burns, physical injuries like broken bones, and nervous system effects such as stopping breathing. Shocks are caused by direct or indirect contact with an exposed live part. Current passing through the body at different levels can result in muscles clamping, fibrillation where the heart twitches without pumping blood, and damage to the heart tissue. To help someone receiving a shock, remove the source using an insulated item without touching the person. Monitor their condition afterwards and call for emergency help if unconscious. Safety precautions include avoiding wet work, using ground fault circuit interrupters, and staying away from overhead power lines.
7-Electrical-Safety.pptx
This document discusses electrical safety and provides information on:
1) How electrical current can enter the body and travel through it, how current affects the body at different levels of amperage.
2) The primary injuries of electrical burns and respiratory failures and secondary injuries from accidents caused by shocks.
3) Factors like current amount, path, frequency and duration that determine injury severity.
4) Electrical hazards including physical ones like wet floors or bare wires and behavioral ones like taking shortcuts.
5) The proper response steps for an electrical accident of turning off power, freeing the victim safely, and calling for help.
Electrocution
1) Electrocutions can occur from a variety of voltages including domestic, industrial, and lightning sources. Fatal electrocutions are divided based on voltage into domestic (220-240V), industrial (high voltages), and lightning.
2) The factors that determine the effects of electrocution include voltage, amperage, current type (AC vs. DC), duration of contact, resistance of body tissues, area of body contact, and path of current through the body.
3) Death from electrocution is usually caused by ventricular fibrillation leading to cardiac arrest, but can also result from spasms of the respiratory muscles or paralysis of the respiratory center in the brain.
Motor and pump maintenance manual book soft copy
1. The document provides safety rules and guidelines for working in an electrical maintenance lab. It details 15 general safety rules including keeping food and drinks out of the lab, reporting any equipment issues, and turning off equipment before leaving.
2. The document discusses electrical hazards, noting that electricity can cause serious injury or death from electric shock. It describes the three main ways shock can occur and factors that determine shock severity such as current level and duration of contact. Shock may cause burns, respiratory issues, or cardiac arrest.
3. Additional details are given on body resistance and ensuring circuits are properly grounded to avoid creating an electrical hazard. When working with live circuits, best practices include using one hand at a time to avoid current
Report on Electrical Safety
The document provides an introduction to electricity including its definition, uses, generation, transmission, and distribution. It discusses the various dangers of electricity including electric shock, burns, neurological damage, ventricular fibrillation, arc flash, and statistics on electrical accidents. The dangers are higher from electrical installations in public places where safety precautions are not taken. Indian Electricity Rules 36 and 40 mandate safety requirements for handling electrical supply lines and apparatus as well as street boxes, but as images later show, these rules are often not followed. Ensuring electrical safety, especially in public areas, is important to minimize accidents.
Electrical injuries-1228075385145907-9 (1)
This document provides information about electrical injuries, including definitions of electricity and different types of electrical currents. It then gives a brief history of electricity, covering discoveries from the 1600s to 1900s. It discusses factors that determine the severity of electrical shocks like current, resistance, and exposure time. Finally, it covers safety considerations and risks for household, industrial, and high voltage electrical incidents.
1728511503435_Electrical Safety Analyzer.ppt
The document discusses various topics related to electrical safety. It covers physiological effects of electricity, susceptibility parameters, distribution of electrical power including isolated power systems, macroshock and microshock hazards, electrical safety codes and standards, and protection methods like grounding systems, isolated power distribution, and ground fault circuit interrupters. It provides details on thresholds for electrical stimulation, respiratory paralysis, ventricular fibrillation and burns based on current levels.
Electrical safety training
This document provides an overview of electrical safety training. It describes how electricity works and the risks of electrical shock and injury. Key points include:
- Electricity travels in closed circuits and shock occurs when the body becomes part of the circuit
- Electrical current can cause burns, internal injuries, and involuntary muscle contractions
- Even low voltages pose a hazard as muscular contractions may prevent releasing contact
- Ground faults are the most common type of shock, which GFCIs can help prevent
- Following safety practices like grounding equipment, avoiding power lines, and inspecting cords can help reduce electrical risks.
Electrical Burn.pptx
This document provides an overview of electric burn management from a presentation given by Soni Kumari. It defines electric injuries, classifies them into four types, and discusses their etiology. It describes how tissue resistance affects the path electricity takes through the body. Common associated injuries are outlined for various body systems. Management follows ATLS protocols and includes fluid resuscitation, nutritional support, escharotomy or fasciotomy if needed, wound debridement, and flaps. The goal is to address life threats, prevent complications, and promote wound healing.
electricalsafetyawarenesstrainings
This document provides an overview of electrical safety training. It covers basic concepts of electricity, hazard recognition, effects of electricity on the human body, electrical hazard protections, work practices, and responsibilities of supervisors and employees. The training aims to raise awareness of potential electrical hazards and instructs how to recognize, eliminate, and prevent hazards. It emphasizes following all electrical safety requirements and practices and what to do in the event of an electrical accident.
ELECTRICAL SAFETY IN OPERATION THEATRE .pptx
Operating rooms pose electrical shock hazards due to the abundance of electrical equipment, anesthetized patients who cannot move away from shocks, and the presence of fluids. Electrical shock occurs when a person completes a circuit between a voltage source and allows current to flow through their body, which can disrupt organ functions or cause burns. The severity of shock depends on current amplitude and duration, with alternating current posing more danger than direct current. Macro shocks involve large currents that can reach the heart through tissues, while microshocks involve small currents that can directly stimulate the heart through conduits like catheters. Proper grounding pad placement and equipment maintenance can help reduce electrical shock risks in operating rooms.
Electrical Safety Awareness Training by Albert Einstein College of Medicine
This document provides an outline for an electrical safety awareness training. It discusses the purpose of the training which is to raise awareness of electrical hazards and instruct attendees on hazard recognition, protection methods, and emergency response. Key topics covered include basic electricity concepts, effects of electricity on the human body, identifying hazards like damaged cords and exposed wiring, and protective equipment and practices like insulation, grounding, lockout/tagout procedures, and PPE. The training aims to emphasize electrical safety requirements to prevent electrical accidents and injuries.
Similar to Lecture 1.pdf nb n n n (20)
Electrical shock hazards and its effects on human body
Electrical shock hazards and its effects on human body
Electrical Safety Awareness Training by Albert Einstein College of Medicine
Electrical Safety Awareness Training by Albert Einstein College of Medicine
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一模一样【微信：A575476】【加拿大多伦多大学毕业证（uoft毕业证书）成绩单Offer】【微信：A575476】（留信学历认证永久存档查询）采用学校原版纸张、特殊工艺完全按照原版一比一制作（包括：隐形水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠，文字图案浮雕，激光镭射，紫外荧光，温感，复印防伪）行业标杆！精益求精，诚心合作，真诚制作！多年品质 ,按需精细制作，24小时接单,全套进口原装设备，十五年致力于帮助留学生解决难题，业务范围有加拿大、英国、澳洲、韩国、美国、新加坡，新西兰等学历材料，包您满意。
【业务选择办理准则】
一、工作未确定，回国需先给父母、亲戚朋友看下文凭的情况，办理一份就读学校的毕业证【微信：A575476】文凭即可
二、回国进私企、外企、自己做生意的情况，这些单位是不查询毕业证真伪的，而且国内没有渠道去查询国外文凭的真假，也不需要提供真实教育部认证。鉴于此，办理一份毕业证【微信：A575476】即可
三、进国企，银行，事业单位，考公务员等等，这些单位是必需要提供真实教育部认证的，办理教育部认证所需资料众多且烦琐，所有材料您都必须提供原件，我们凭借丰富的经验，快捷的绿色通道帮您快速整合材料，让您少走弯路。
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
→ 【关于价格问题（保证一手价格）
我们所定的价格是非常合理的，而且我们现在做得单子大多数都是代理和回头客户介绍的所以一般现在有新的单子 我给客户的都是第一手的代理价格，因为我想坦诚对待大家 不想跟大家在价格方面浪费时间
对于老客户或者被老客户介绍过来的朋友，我们都会适当给一些优惠。
选择实体注册公司办理，更放心，更安全！我们的承诺：可来公司面谈，可签订合同，会陪同客户一起到教育部认证窗口递交认证材料，客户在教育部官方认证查询网站查询到认证通过结果后付款，不成功不收费！
➒➌➎➏➑➐➋➑➐➐ Dpboss Satta Matka Matka Guessing Kalyan Chart Indian Matka Satta ...
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原版一模一样【微信：741003700 】【美国乔治城大学毕业证硕士学位证书】【微信：741003700 】学位证，留信认证（真实可查，永久存档）offer、雅思、外壳等材料/诚信可靠,可直接看成品样本，帮您解决无法毕业带来的各种难题！外壳，原版制作，诚信可靠，可直接看成品样本。行业标杆！精益求精，诚心合作，真诚制作！多年品质 ,按需精细制作，24小时接单,全套进口原装设备。十五年致力于帮助留学生解决难题，包您满意。
本公司拥有海外各大学样板无数，能完美还原海外各大学 Bachelor Diploma degree, Master Degree Diploma
1:1完美还原海外各大学毕业材料上的工艺：水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠。文字图案浮雕、激光镭射、紫外荧光、温感、复印防伪等防伪工艺。材料咨询办理、认证咨询办理请加学历顾问Q/微741003700
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
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- 1. UNIVERSITY OF ENGINEERING AND TECHNOLOGY PESHAWAR ELECTRONICS ENGINEERING DEPARTMENT ELE-410 INDUSTRIAL ELECTRONICS LECTURE # 01 BY DR. ADAM KHAN 1
- 2. • Text Book: Electric Motors and Control Systems • By Frank D Petruzella 2nd Edition 2
- 3. Chapter 1: Safety in the Workplace • Safety is the number one priority in any job. • Every year, electrical accidents cause serious injury or death. • Many of these casualties are young people just entering the workplace. • These accidents result from carelessness, from the pressures and distractions of a new job, • or from a lack of understanding about electricity 3
- 4. Part 1: Protecting against Electrical Shock • Electrical Shock • The human body conducts electricity. • Even low currents may cause severe health effects. • Spasms (a sudden involuntary muscular contraction), burns, muscle paralysis, or death can result • Depending on the amount of the current • the route it takes • the duration of exposure. • The main factor for determining the severity of an electric shock is the amount of electric current 4
- 5. Electrical Shock(Contd….) • Body resistance can be divided into • external (skin resistance) and • internal (body tissues and blood stream resistance). • Typical body resistance values are: • Dry skin—100,000 to 600,000 Ω • Wet skin—1,000 Ω • Internal body (hand to foot)—400 to 600 Ω • Ear to ear—100 Ω 5
- 6. Electrical Shock(Contd….) • When skin resistance is low, the current may cause little or no skin damage but severely burn internal organs and tissues. • Conversely, high skin resistance can produce severe skin burns but prevent the current from entering the body. • The amount of voltage that is dangerous to life varies with each individual because of differences in body resistance and heart conditions. • Generally, any voltage above 30 V is considered dangerous. 6
- 7. Electrical Shock(Contd….) • If you came into direct contact with 120 volts and your body resistance was 100,000 ohms the current that would flow would be: 1.2 mA. • If you were sweaty and barefoot, then your resistance to ground might be as low as 1,000 ohms. Then the current would be: 120 mA • Figure 1-1 illustrates the relative magnitude and effect of electric current. 7
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